Authors :
Abhijit Nikam; Ramprasad P. Mandade; Govind V. More
Volume/Issue :
Volume 8 - 2023, Issue 12 - December
Google Scholar :
https://tinyurl.com/j7jrurwp
Scribd :
https://tinyurl.com/2m9bzvb2
DOI :
https://doi.org/10.5281/zenodo.10394875
Abstract :
Urolithiasis, a nutritional ailment impacting
household carnivores, was subject to an exhaustive
analysis of past and contemporary literature. The focus
encompassed insights into anatomical prevalence, urine
formation physiology, mineral composition, clinical
manifestations, laboratory observations, dissolution
strategies, surgical interventions, and preventive
measures against urolithiasis. Attaining a profound
understanding of the intricate and diverse aspects of
urolithiasis stands as a remarkable milestone in
advancing treatment and disease management. However,
completely eliminating the ailment poses a formidable
challenge, necessitating a comprehensive overhaul of all
contributing factors to urolith formation. Dogs
predominantly submitted uroliths containing calcium
oxalate and struvite, with calcium phosphate and silicate
following closely. The prevalence of CaOx-containing
and struvite-containing uroliths experienced a
noteworthy increase, demonstrating a significant
nonlinear escalation in calcium phosphate and silicate.
Predispositions based on age, breed, and gender
mirrored previous identifications. To confirm the
diagnosis, abdominal radiography, abdominal
ultrasonography, as well as blood and serum analyses
were conducted, ultimately confirming the case as
urolithiasis. According to the findings of this
investigation, the authors determined that peritoneal
dialysis, despite a notable complication frequency,
emerged as a successful method for alleviating azotemia
in dogs experiencing both acute and chronic renal
failure. In hemodialysis and continuous renal
replacement therapy, blood traverses straw-like
semipermeable membranes immersed in a dialysate. In
contrast, peritoneal dialysis utilizes the peritoneum as a
membrane for the exchange of fluids and uremic solutes.
Here, dialysate is introduced into the peritoneal cavity,
initiating a process where water, toxins, electrolytes, and
other diminutive molecules equilibrate through diffusion
and osmosis. Subsequently, the dialysate, now laden with
uremic toxins and water, is extracted and discarded. This
cyclic procedure is consistently reiterated as necessary to
achieve effective uremia control.
Keywords :
Dog, Urolithiasis, Uroliths, Retrograde Hydropropilsion, USG, Radiology.
Urolithiasis, a nutritional ailment impacting
household carnivores, was subject to an exhaustive
analysis of past and contemporary literature. The focus
encompassed insights into anatomical prevalence, urine
formation physiology, mineral composition, clinical
manifestations, laboratory observations, dissolution
strategies, surgical interventions, and preventive
measures against urolithiasis. Attaining a profound
understanding of the intricate and diverse aspects of
urolithiasis stands as a remarkable milestone in
advancing treatment and disease management. However,
completely eliminating the ailment poses a formidable
challenge, necessitating a comprehensive overhaul of all
contributing factors to urolith formation. Dogs
predominantly submitted uroliths containing calcium
oxalate and struvite, with calcium phosphate and silicate
following closely. The prevalence of CaOx-containing
and struvite-containing uroliths experienced a
noteworthy increase, demonstrating a significant
nonlinear escalation in calcium phosphate and silicate.
Predispositions based on age, breed, and gender
mirrored previous identifications. To confirm the
diagnosis, abdominal radiography, abdominal
ultrasonography, as well as blood and serum analyses
were conducted, ultimately confirming the case as
urolithiasis. According to the findings of this
investigation, the authors determined that peritoneal
dialysis, despite a notable complication frequency,
emerged as a successful method for alleviating azotemia
in dogs experiencing both acute and chronic renal
failure. In hemodialysis and continuous renal
replacement therapy, blood traverses straw-like
semipermeable membranes immersed in a dialysate. In
contrast, peritoneal dialysis utilizes the peritoneum as a
membrane for the exchange of fluids and uremic solutes.
Here, dialysate is introduced into the peritoneal cavity,
initiating a process where water, toxins, electrolytes, and
other diminutive molecules equilibrate through diffusion
and osmosis. Subsequently, the dialysate, now laden with
uremic toxins and water, is extracted and discarded. This
cyclic procedure is consistently reiterated as necessary to
achieve effective uremia control.
Keywords :
Dog, Urolithiasis, Uroliths, Retrograde Hydropropilsion, USG, Radiology.